Four core services, delivered as standalone engagements or as a complete project from design through commissioning. Every scope is approached the same way: understand the process, design a system that fits it, and build something the people who operate it can depend on.
Architecture first. The rest follows.
Control system design is the engineering work that happens before a line of code is written or a panel is built. It's the process of translating process requirements into a system architecture: deciding what gets controlled, how it gets controlled, and how every piece of the system connects.
Getting this right early eliminates the expensive corrections that happen when programming starts on a design that wasn't fully thought through.
We develop control system architectures that account for the full scope of the project. That includes I/O identification and planning, so every field device has a defined connection and signal type before panel layout begins. It includes writing control narratives: the plain-language descriptions of how each process sequence is supposed to behave: which serve as the source of truth for programming and commissioning alike.
Panel layout design defines how equipment is arranged inside the enclosure: component placement, wire routing, heat load, access. Network architecture defines how PLCs, HMIs, SCADA systems, and field devices communicate: protocol selection, topology, and redundancy where the application calls for it.
A well-designed system is faster to program, easier to commission, and simpler to troubleshoot years after installation. The design documentation doesn't go in a drawer: it's the living record of what the system is and why it works the way it does.
PLC, HMI, and SCADA. Written to be maintained.
Programming is the logic that runs the process. We write PLC ladder logic and structured text, develop HMI screens that give operators clear, accurate information, and configure SCADA systems that provide plant-wide visibility and data historian functions.
We program across the major industrial automation platforms: Allen-Bradley/Rockwell, Siemens, AutomationDirect, and others depending on project requirements and customer standards.
PLC programming follows the control narrative: sequence logic, interlocks, alarm conditions, and safety shutdowns are built to match the designed behavior, not improvised. HMI development focuses on operator clarity: screen layouts that reflect the actual process flow, alarm management that surfaces what matters, and navigation that doesn't require a manual to figure out.
SCADA configuration covers tag databases, historian setup, trending, reporting, and remote access architecture. Where existing systems need modifications or expansions, we work within the established platform and coding conventions rather than introducing unnecessary changes.
Code written for clarity is code that can be debugged at 2 a.m. by someone who didn't write it. Consistent naming conventions, structured organization, and inline comments aren't optional: they're part of what gets delivered.
Commissioning, startup, and troubleshooting. On site.
Field services are the work that happens on the floor: taking a designed and programmed system and making it operate correctly in the actual environment, with real field devices, real process conditions, and real operators.
Commissioning begins with verifying that the installation matches the design: checking wiring against drawings, confirming I/O terminations, validating instrument calibrations. Loop checks confirm that each field device signals correctly at the controller before any process is started.
Startup is the controlled sequence of bringing the system online: jogging motors, testing sequences in manual, verifying interlocks and shutdowns under controlled conditions before handing over to automatic operation. We don't declare startup complete until the system runs the process as designed.
Ongoing troubleshooting and on-site support are available for facilities that need a controls resource for issues that arise in normal operation: faults, unexpected behavior, equipment failures, or modifications to existing systems.
A system that isn't commissioned correctly isn't finished, regardless of how good the design and programming are. Field verification closes the gap between what was designed and what actually runs.
Designed for the system. Built for the environment.
Control panel design and fabrication is the physical realization of the control system architecture. The panel has to fit the equipment it controls, the environment it's installed in, and the people who will open it.
Panel design begins with the system architecture: what components are required, how they're organized inside the enclosure, and how the panel connects to the field. Component selection is driven by the application: the right PLCs, drives, contactors, breakers, and terminal blocks for the load, environment, and customer standards: not whatever happens to be on the shelf.
Wiring is documented. Every wire is labeled. Every connection traces back to a drawing. Panels leave the shop with wiring diagrams that match what was built, because the technician who opens it five years from now needs to be able to read it.
Enclosure selection accounts for the installation environment: NEMA ratings for wash-down, dust, or outdoor exposure; physical size and layout for access and thermal management.
A poorly built panel is a maintenance problem for the life of the system. A well-built panel with clear documentation is an asset: faster to troubleshoot, easier to modify, and readable by anyone who needs to work on it.